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Featured researches published by Wayne Woods.


Applied Physics Letters | 2018

Analysis and mitigation of interface losses in trenched superconducting coplanar waveguide resonators

Greg Calusine; Alexander Melville; Wayne Woods; Rabindra N. Das; Corey Stull; Vlad Bolkhovsky; Danielle Braje; David Hover; David Kim; Xhovalin Miloshi; Danna Rosenberg; Arjan Sevi; Jonilyn Yoder; Eric A. Dauler; William D. Oliver

Improving the performance of superconducting qubits and resonators generally results from a combination of materials and fabrication process improvements and design modifications that reduce device sensitivity to residual losses. One instance of this approach is to use trenching into the device substrate in combination with superconductors and dielectrics with low intrinsic losses to improve quality factors and coherence times. Here we demonstrate titanium nitride coplanar waveguide resonators with mean quality factors exceeding two million and controlled trenching reaching 2.2


arXiv: Quantum Physics | 2018

Determining interface dielectric losses in superconducting coplanar waveguide resonators.

Wayne Woods; Greg Calusine; Alexander Melville; Arjan Sevi; Evan Golden; David Kim; Danna Rosenberg; Jonilyn Yoder; William D. Oliver

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Bulletin of the American Physical Society | 2018

Quantitative Analysis of Surface Losses in Coplanar Waveguide Resonators, Part 1: Materials and Fabrication

Alexander Melville; Greg Calusine; Wayne Woods; Rabindra N. Das; Evan Golden; Corey Stull; Vlad Bolkhovsky; Danielle Braje; David Hover; David K. Kim; Xhovalin Miloshi; Danna Rosenberg; Arjan Sevi; Jonilyn Yoder; Eric A. Dauler; William D. Oliver

m into the silicon substrate. Additionally, we measure sets of resonators with a range of sizes and trench depths and compare these results with finite-element simulations to demonstrate quantitative agreement with a model of interface dielectric loss. We then apply this analysis to determine the extent to which trenching can improve resonator performance.


Bulletin of the American Physical Society | 2018

Quantitative Analysis of Surface Losses in Coplanar Waveguide Resonators Part 3: Surface Loss Extraction

Wayne Woods; Alexander Melville; Greg Calusine; Rabindra N. Das; Evan Golden; Corey Stull; Vlad Bolkhovsky; Danielle Braje; David Hover; David K. Kim; Xhovalin Miloshi; Danna Rosenberg; Arjan Sevi; Jonilyn Yoder; Eric A. Dauler; William D. Oliver


Bulletin of the American Physical Society | 2018

Quantitative Analysis of Surface Losses in Coplanar Waveguide Resonators Part 2: Anisotropic Trenching

Greg Calusine; Alexander Melville; Wayne Woods; Rabindra N. Das; Evan Golden; Corey Stull; Vlad Bolkhovsky; Danielle Braje; David Hover; David K. Kim; Xhovalin Miloshi; Danna Rosenberg; Arjan Sevi; Jonilyn Yoder; Eric A. Dauler; William D. Oliver


Bulletin of the American Physical Society | 2018

3D Integration for Superconducting Qubits: Part 1

Danna Rosenberg; Gregory Calusine; Rabindra N. Das; Alexandra Day; Evan Golden; Amy Greene; Simon Gustavsson; Philip Krantz; David K. Kim; Morten Kjaergaard; Justin Mallek; Alexander Melville; Bethany M. Niedzielski; Mollie Schwartz; Steven Weber; Wayne Woods; Jonilyn Yoder; Donna-Ruth W. Yost; Andrew J. Kerman; William D. Oliver


Bulletin of the American Physical Society | 2018

3D Integration for Superconducting Qubits; Part 2 Superconducting Through Silicon Via Interposer Fabrication

Donna-Ruth W. Yost; Justin Mallek; Danna Rosenberg; Greg Calusine; Matthew Cook; Rabindra N. Das; Alexandra Day; Evan Golden; David K. Kim; Alexander Melville; Corey Stull; Wayne Woods; Jonilyn Yoder; Andrew J. Kerman; William D. Oliver


Bulletin of the American Physical Society | 2018

Superconducting Through Silicon Vias (TSVs) for 3D Integration in Quantum Computing

Justin Mallek; Donna-Ruth W. Yost; Danna Rosenberg; Greg Calusine; Matthew Cook; Rabindra N. Das; Evan Golden; David K. Kim; Alexander Melville; Corey Stull; Wayne Woods; Jonilyn Yoder; William D. Oliver


Bulletin of the American Physical Society | 2017

Characterization of the dominant loss mechanisms in superconducting coplanar waveguide resonators

Greg Calusine; Alexander Melville; Wayne Woods; David K. Kim; Xhovalin Miloshi; Arjan Sevi; Jonilyn Yoder; William D. Oliver


Bulletin of the American Physical Society | 2017

Trenched TiN superconducting coplanar waveguide resonators for determining interfacial losses

Alexander Melville; Greg Calusine; Wayne Woods; David K. Kim; Xhovalin Miloshi; Arjan Sevi; Jonilyn Yoder; William D. Oliver

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Jonilyn Yoder

Massachusetts Institute of Technology

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William D. Oliver

Massachusetts Institute of Technology

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Danna Rosenberg

Massachusetts Institute of Technology

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Greg Calusine

University of California

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David K. Kim

University of Pennsylvania

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Rabindra N. Das

Massachusetts Institute of Technology

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Arjan Sevi

Massachusetts Institute of Technology

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Xhovalin Miloshi

Massachusetts Institute of Technology

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Corey Stull

Massachusetts Institute of Technology

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